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The Exponential Function

The American Mathematical Monthly, 1957
(1957). The Exponential Function. The American Mathematical Monthly: Vol. 64, No. 3, pp. 158-160.
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ESTIMATING EXPONENTIAL UTILITY FUNCTIONS

Agricultural Economics Research, 1978
The exponential utility function for money has long attracted attention from theorists because it exhibits nonincreasing absolute risk aversion. Also, under certain conditions, it generates an expected utility function that is maximizable in a quadratic program. However, this functional form presents estimation problems.
Buccola, Steven T.   +3 more
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The Exponential Function

2014
By now we know Euler’s number \(\mathrm{e} =\mathrm{ e}^{1}\) quite well. In this chapter we define the exponential function \(\mathrm{e}^{x}\) for any x ∈ R, and its inverse the natural logarithmic function ln(x), for x > 0. (In the first section of the chapter we take a concise approach to the exponential function; in the second section we do things ...
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Double exponential sums with exponential functions

International Journal of Number Theory, 2017
We obtain several estimates for double rational exponential sums modulo a prime [Formula: see text] with products [Formula: see text] where both [Formula: see text] and [Formula: see text] run through short intervals and [Formula: see text] is fixed integer.
Igor E. Shparlinski, Kam Hung Yau
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EXCESSES OF SYSTEMS OF EXPONENTIAL FUNCTIONS [PDF]

open access: possibleMathematics of the USSR-Izvestiya, 1977
Conditions on the closeness of real sequences {λn} and {μn} are studied which imply the equality of the excesses of the systems {exp(iλnx)} and {exp(iμnx)} in the space L2(−a, a). A theorem is formulated in terms of the difference of the sequences {λn} and {μn} enumerating the functions.
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The Exponential Function

1995
It is a general problem to determine the continued fractions for values of classical functions suitably normalized. We shall describe a solution of this problem in a very special case which will allow us in particular to get the continued fraction for e.
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The Exponential Function

1983
Let z denote the identity map on C. For every non-negative integer n, we define a polynomial function E n by $$ {E_n} = \sum\limits_{{k = 0}}^n {\frac{1}{{k!}}{z^k}} $$ Given an arbitrary complex number c, let n be such that n + 1 ≧ 2|c|, and let q be an arbitrary positive integer.
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Exponential and Logarithmic Functions I

1971
In the preceding chapter we carefully avoided applying calculus to exponential and logarithmic functions although these functions are of fundamental importance for all kinds of mathematical and statistical treatment in the life sciences.
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Exponential Functions of Matrices

2020
In Chap. 12, we dealt with a function of matrices. In this chapter we study several important definitions and characteristics of functions of matrices. If elements of matrices consist of analytic functions of a real variable, such matrices are of particular importance.
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Logarithmic and Exponential Functions

2013
The entire algebra of logarithm is based on the following definition: The logarithm of a number a to the base b is a number c such that a can be expressed as b to the power c.
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